15 results about "Lead Placement" patented technology

A system and method of neurostimulation that is coupled with spinal fixation or the spine, implanted at the time of spine surgery, and allowing for a delayed minimally invasive connection to a stimulation source. The components of the system include the conduit anchor that secures to the instrumentation or spine; conduit housing through which leads enter and channels are isolated; the conduit cap to protect the implant; the lead adaptor entry port, wherein leads enter and channels are isolated; the lead adaptor pin housing, which contains contact pins; the keyed MIS tube, through which the lead adaptor is implanted in a second surgery; a grooved applicator to assist with lead placement; and an encircling clip to assist in securing a lead. The method of generating a signal in the frequency domain is described. The method of minimally invasive stimulation trial placement is described.

A stabilizer sleeve is disclosed for use with cardiac implantable electronic device leads. The sleeve comprises a tubular body sized to receive the lead and shaped to bias the lead toward a desired anatomical location, thereby reducing migration, dislodgement, and interference with cardiac structures. The sleeve may be introduced with the lead as a unitary assembly or added after lead placement. Various embodiments include a slitted body for expansion, radiopaque markers for visualization, detachable nose-cone tips for guidewire tracking, and antimicrobial coatings. The sleeve may be formed of polymers, alloys, or composite materials, and may include features such as texturing or anchoring projections for tissue engagement. Applications include positioning within a tricuspid valve commissure to minimize regurgitation and stabilizing left ventricular leads within branches of the coronary sinus. The device and methods described provide improved long-term stability and performance of implanted cardiac leads.

Apparatus, systems, and methods are provided for placing pacing leads or other devices within a patient's heart. In an exemplary embodiment, the apparatus includes a tubular member comprising a flexible distal portion defining a curvilinear shape in a relaxed state including a curved first region defining a first radius lying within a first plane, a substantially straight second region extending from the first curved region defining a first length, and a curved third region extending from the second region defining a second radius smaller than the first radius.

This application relates to the field of lead placement, and discloses a blow-in type lead placement gun, which includes a first barrel and a second barrel. A first cavity penetrating the first barrel is provided inside the first barrel, and a second cavity penetrating the second barrel is provided inside the second barrel. The second barrel is docked on the side wall of the first barrel, and the second cavity is communicated with the first cavity. One end of the first barrel is provided with a closed joint, and a wire hole for the lead to pass through is opened on the closed joint. This application has the following effects: 1. The lead placement speed is fast, and the pipeline can be quickly switched, greatly increasing the construction flexibility; 2. The connection with the pipeline has high sealing performance, fully ensuring the thrust on the traction head, and the construction stability is high.

A method may include identifying a simulated three-dimensional representation corresponding to an internal anatomy of a subject based on a match between a computed two-dimensional image corresponding to the simulated three-dimensional representation and a two-dimensional image depicting the internal anatomy of the subject. Simulations of the electrical activities measured by a recording device with standard lead placement and nonstandard lead placement may be computed based on the simulated three-dimensional representation. A clinical electrogram and / or a clinical vectorgram for the subject may be corrected based on a difference between the simulations of electrical activities to account for deviations arising from patient-specific lead placement as well as variations in subject anatomy and pathophysiology.

A system and method for locating and guiding a peripheral nerve assessment (PNE) lead. The system includes an X-ray system for capturing an image of a patient. The image is processed by the system and provided to the user to use a measurement device to insert a needle for placement of a lead to perform the PNE process.

The disclosed invention relates generally to various embodiments of garments for use with electrocardiographs. In particular, the invention relates to a garment with a lead placement layer or precordial patch with incorporated ECG leads and a support layer configured to support the breasts of a user while a patient undergoes an exercise stress electrocardiograph. Various portions of the garment are easily and quickly removable.

PATENT Apparatus, systems, and methods are provided for placing pacing leads or other devices within a patient's heart. In an exemplary embodiment, the apparatus includes a tubular member comprising a flexible distal portion defining a curvilinear shape in a relaxed state including a curved first region defining a first radius lying within a first plane, a substantially straight second region extending from the first curved region defining a first length, and a curved third region extending from the second region defining a second radius smaller than the first radius.

A method may include identifying a simulated three-dimensional representation corresponding to an internal anatomy of a subject based on a match between a computed two-dimensional image corresponding to the simulated three-dimensional representation and a two-dimensional image depicting the internal anatomy of the subject. Simulations of the electrical activities measured by a recording device with standard lead placement and nonstandard lead placement may be computed based on the simulated three-dimensional representation. A clinical electrogram and / or a clinical vectorgram for the subject may be corrected based on a difference between the simulations of electrical activities to account for deviations arising from patient-specific lead placement as well as variations in subject anatomy and pathophysiology.

A system and method of neurostimulation that is coupled with spinal fixation or the spine, implanted at the time of spine surgery, and allowing for a delayed minimally invasive connection to a stimulation source. The components of the system include the conduit anchor that secures to the instrumentation or spine; conduit housing through which leads enter and channels are isolated; the conduit cap to protect the implant; the lead adaptor entry port, wherein leads enter and channels are isolated; the lead adaptor pin housing, which contains contact pins; the keyed MIS tube, through which the lead adaptor is implanted in a second surgery; a grooved applicator to assist with lead placement; and an encircling clip to assist in securing a lead. The method of generating a signal in the frequency domain is described. The method of minimally invasive stimulation trial placement is described.

A system may include an electrode arrangement and a neurostimulator. The electrode arrangement may have a length typically in a head-tail direction and a width typically in an inboard and outboard direction. The electrode arrangement may include a first set of electrodes and a second set of electrodes spaced apart over a width. The neural stimulator may be configured to stimulate a series of locations of the patient using a subset of the first set of electrodes and, for each stimulated location in the series of stimulated locations, identify a respective response measure for each of the second set of electrodes. Physiological midlines may be inferred or identified from these measurements, which may be used to guide lead placement and / or programming.

The utility model discloses I-shaped inductor production equipment. The I-shaped inductor production equipment comprises a conveying device, a feeding device, a straightening device, a lead placing device and a push-in device, the conveying device comprises a conveying mechanism and a conveying plate arranged on the conveying mechanism, a material placing groove is formed in the conveying plate, two lead grooves are formed in the front side of the material placing groove, and a positioning convex part is arranged in the material placing groove; the feeding device is used for feeding the magnetic cores into the material containing groove and comprises a vibration feeding disc and a feeding channel connected with the vibration feeding disc. The straightening device is used for straightening the position of the magnetic core so that the mounting hole of the magnetic core is aligned with the lead groove; the two lead placing devices are used for placing two leads in the two lead grooves respectively, and each lead placing device comprises a wire feeding mechanism, a wire cutting mechanism and a wire releasing mechanism; and the push-in device is used for pushing the leads on the two lead grooves into the mounting holes of the magnetic cores for mounting, and comprises a material pushing rod which is obliquely arranged on the side surface of the conveying device. Therefore, the two mounting holes of the magnetic core can be aligned with the two leads for mounting, and the production efficiency is improved.

Devices, systems, and techniques for determining medical lead placement are described. In one example, a system includes sensing circuitry configured to detect, via a lead, a bioelectric signal of the patient, wherein the lead comprises one or more electrodes, and wherein the lead is configured to be located in an epidural space of a patient and displaced laterally from a dorsal horn of the patient. Additionally, the system includes processing circuitry configured to determine, based on the bioelectric signal, a proximity of each electrode of the one or more electrodes to a dorsal root of the patient; and output information indicative of the proximity of each electrode of the one or more electrodes to the dorsal root.

The present application provides a positioning jig for welding small-diameter leads and an operation method thereof. The jig includes a jig base, a positioning member, and a first pressing member. The jig base is provided with a plurality of lead placement positions at intervals along a transverse direction. Each lead placement position is provided with a lead groove for placing a lead. The positioning member is used to position and fix the lead in the lead groove. The jig base is further provided with a wire pressing groove for placing a wire pressing line along the transverse direction. The wire pressing line is pressed against the part of the lead extending out of the lead groove. The jig base is respectively provided with first rubber particles at the positions at both ends of the plurality of lead placement positions. The top surface of the first rubber particles is flush with the surface where the notch of the wire pressing groove is located. The part of the wire pressing line corresponding to the first rubber particles is placed on the top surface of the first rubber particles. The first pressing member presses on the part of the wire pressing line corresponding to the first rubber particles, so that the part of the wire pressing line located between the two first rubber particles is straight and taut, improving the sensitivity and welding efficiency of the lead welding part, and further improving the yield rate.

An implantable pulse generator (IPG) system and method for spinal cord stimulation (SCS) are disclosed, incorporating advanced percutaneous lead placement, optical fiber integration, and secure lead coupling. A method is provided for inserting and securing an optical fiber within a stylet channel, ensuring precise optical alignment using a frustoconical centering surface and buffer gap. A percutaneous lead placement method is also disclosed, utilizing a Touhy needle-guided approach, securing leads in the IPG header with anchor screws and ferrule alignment mechanisms. The system further includes an optical threading assembly that facilitates fiber insertion, reducing damage and improving optical signal transmission. These innovations enhance stimulation precision, signal stability, and device longevity, reducing power consumption and noxious stimulation. The disclosed methods improve surgical accuracy and lead retention, optimizing spinal cord therapy by maintaining consistent electrode positioning and optical feedback for dynamic current modulation.